|Year : 2018 | Volume
| Issue : 2 | Page : 117-121
Effects of mangosteen peel extract combined with demineralized freeze-dried bovine bone xenograft on osteocalcin, collagen 1, and osteoblast as alveolar bone regeneration in socket preservation
Utari Kresnoadi, Tika Raharjo, Rostiny Rostiny
Department of Prosthodontic, Faculty of Dental Medicine, Universitas Airlangga, Surabaya 60132, Indonesia
|Date of Submission||13-Dec-2017|
|Date of Acceptance||29-Jan-2018|
|Date of Web Publication||06-Apr-2018|
Prof. Utari Kresnoadi
Department of Prosthodontic, Faculty of Dental Medicine, Universitas Airlangga, Mayjen. Prof. Dr. Moestopo 47, Surabaya 60132
Source of Support: None, Conflict of Interest: None
Background: Tooth extraction will provoke changes in alveolar bone morphology and dimensions. Postextraction bone resorption can lead to significant problems for restorative dentistry. Therefore, the extracted tooth socket needs to be preserved to reduce alveolar ridge bone resorption. This research aimed to analyze the expression and levels of osteocalcin, collagen 1, and osteoblasts in extracted tooth sockets filled with a combination of mangosteen peel extract and demineralized freeze-dried bovine bone xenograft (DFDBBX).
Material and Methods: Fifty-six Cavia cobaya, whose lower left incisors had been extracted, were divided into eight groups according to the substance used to fill their sockets on days 7 and 30, Poly ethylene glycol, DFDBBX, mangosteen peel extract, or a combination of mangosteen peel extract and DFDBBX. This research was conducted in several stages; the application of mangosteen peel extract combined with graft material was performed as the form of tooth extraction socket preservation. The C. cobaya rats were subsequently examined by immunohistochemical methods to measure osteocalcin and collagen 1 expressions, whereas histological examination was conducted to calculate the number of osteoblasts in accordance with the duration of the research.
Results: On days 7 and 30, the group treated with a combination of DFDBBX and mangosteen peel extract which had the highest expression and levels of osteocalcin, collagen 1, and osteoblasts.
Conclusion: The administration of mangosteen peel extract combined with DFDBBX as a means of tooth extraction socket preservation can increase osteocalcin and collagen 1 expression. Consequently, osteoblasts as a means of alveolar bone regeneration will increase in number.
Keywords: Alveolar bone, collagen 1, demineralized freeze-dried bovine bone xenograft, mangosteen peel extract, osteocalcin, socket preservation
|How to cite this article:|
Kresnoadi U, Raharjo T, Rostiny R. Effects of mangosteen peel extract combined with demineralized freeze-dried bovine bone xenograft on osteocalcin, collagen 1, and osteoblast as alveolar bone regeneration in socket preservation. J Indian Prosthodont Soc 2018;18:117-21
|How to cite this URL:|
Kresnoadi U, Raharjo T, Rostiny R. Effects of mangosteen peel extract combined with demineralized freeze-dried bovine bone xenograft on osteocalcin, collagen 1, and osteoblast as alveolar bone regeneration in socket preservation. J Indian Prosthodont Soc [serial online] 2018 [cited 2018 Sep 19];18:117-21. Available from: http://www.j-ips.org/text.asp?2018/18/2/117/227838
| Introduction|| |
Tooth extraction usually results in trauma leading to inflammation which, in turn, stimulates the development of osteoclasts and the resorption of alveolar bone. Subsequently, the postextraction resorption of alveolar bone can cause significant problems for restorative dentistry since removal of the tooth may result in changes of the morphology and dimensions of the alveolar bone. Thus, preservation of the extracted tooth socket is required to decrease the occurrence of alveolar bone ridge resorption. Unfortunately, many cases of extraction are not followed by appropriate and effective alveolar ridge management.
In the field of medicine and dentistry, grafts are often used to repair bone defects and augmentation.,,,,, The bone graft material often used in the field of dentistry is xenograft since it is relatively easy to apply. The most commonly used type is bovine-derived bone xenograft made from demineralized bovine bone whose organic mineral has been removed. Demineralized freeze-dried bovine bone xenograft (DFBBX) is a product of Batan whose immunogenic properties have been removed. DFBBX is also free of soft tissue.
Bone composition consists of minerals, organic matrix and cells at a ratio of 65% and water at ratio 35%. The proportion of organic matrix is about 35% of the weight of the bone when in a dry state. It consists of 90% collagen as the most common bone protein and other noncollagen proteins, namely osteonectin, osteocalcin, osteopontin, and sialoprotein. Osteocalcin and collagen 1 represent the most abundant products in osteoblast cells. Furthermore, osteoblasts also synthesize other proteins in the bone matrix, namely osteocalcin and osteonectin, constituting 40%–50% of the noncollagen proteins in bone.
A significant number of natural ingredients are currently used in the field of medicine, including mangosteen (Garcinia mangostana L.). One of the substances contained in mangosteen is xanton which acts as an anti-inflammatory, anti-oxidant, anti-bacterial, antitumor, and anticancer agent.
Mangosteen peel extract combined with DFDBBX, according to previous research performed by Kresnoadi et al., can increase the number of osteoblasts at a concentration of 2%. On the other hand, Guskuma et al. analyzed protein expression during the osteogenesis process from day 7 to day 30. The research shows that protein is expressed on day 7 of the regeneration period, reaching a peak of bone formation on day 30. Therefore, this research aimed to identify the effects of mangosteen peel extract combined with DFDBBX on the expressions of osteocalcin and collagen 1, the most prominent osteoblast-produced markers of alveolar bone regeneration, on days 7 and 30.
| Materials and Methods|| |
Research design and animal model
Ethical clearance for this research was issued by the Committee of Health Research Ethics of Faculty of Dental Medicine No. 008/HRECCFODM/I/2017. This research was an experimental investigation incorporating randomized posttest control group design. It involved the use of healthy, active male Cavia cabaya weighing 300–350 g and aged 3–3.5 month as the research sample which was divided into eight groups, each consisting of seven subjects. In Groups I and II, the teeth of the Cavia cabaya were removed and the cavities filled with poly ethyl glycol (PEG) as controls which were subsequently examined on days 7 and 30. Moreover, the teeth of the Cavia cabaya in Groups III and IV were extracted, the sockets being filled with DFDBBX + PEG, and then checked on days 7 and 30. The teeth of the Cavia cabaya in Groups V and VI were similarly extracted. However, the resulting sockets were filled with manggosteen peel extract + PEG, with observation being carried out on days 7 and 30. Meanwhile, in Groups VII and VIII, the sockets of the extracted teeth of the Cavia cabaya were flled with manggosteen peel extract + DFDBBX + PEG, before being examined on days 7 and 30.
The fillers used as independent variables in this research were 25 g of PEG, 0.5 g of DFDBBX + 24.5 g of PEG, 0.5 g of mangosteen peel extract + 24.5 g of PEG, in addition to 0.5 g of mangosteen peel extract + 0.5 g of DFDBBX + 24 g of PEG as a carrier. The identification of mangosteen peel extract was then performed at Laboratory Research and Industrial Consultants, Surabaya, Indonesia. The mangosteen used in this research was classified as Kingdom Plantae, Spermatophyta Division, Angiospermae Subdivison, Dicotyledoneae Class, Guttiferae Family, Garcinia Genum, and Garcinia mangostana L species. The mangosteen peel extract employed was composed of 1.22% flavonoid, 2.88% tanin, 2.56% xanton, and 3.01% mangosteen.
In addition, sterile aquadest, DFDBBX produced by Batan, absolute alcohol, 70% alcohol, anti-osteocalcin, as well as anti-Collagen Type 1 (Santa Cruzz) monoclonal antibodies were used. This research also utilized an immunostaining kit reagent (Licca Novocastra). To conduct an analysis of the specimen, this research also used H and E reagent, micropipette, tip (yellow, white, and blue), light microscopy, object glass coated with polylysine, and covered glass.
Osteocalcin and collagen 1 as products expressed by osteoblast cells were examined by means of the immunohistochemistry method, using anti-osteocalcin monoclonal antibodies and anti-Collagen 1 monoclonal antibodies. Osteocalcin and Collagen type I expression was then analyzed using a light microscope with a view field of ×10 and a magnification of ×400.
| Results|| |
The mean and standard deviation of the osteocalcin and collagen type 1 expressions examined on days 7 and 30 can be seen in [Figure 1].
|Figure 1: Bar charts of the average of osteocalcin and collagen 1 expressions on days 7 and 30 during the immunohistochemistry examination|
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The mean number of osteocalcin and collagen 1 expressions increased from the control group, the group filled with DFDBBX, the group filled with mangosteen peel extract, to the group filled with the combination of mangosteen peel extract and DFDBBX on both days 7 and30. The mean increases of osteoblasts, osteocalcin, and collagen 1 on days 7 and 30 is shown in [Figure 2] and [Figure 3].
|Figure 2: Graphic of the average osteoblasts, osteocalcin, and collagen 1 over 7 days of examination. Increases in osteoblast, osteocalcin, and collagen 1 occurred|
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|Figure 3: Graphic of the average osteoblasts, osteocalcin, and collagen 1 on 30-day examination. Increases in osteoblasts, osteocalcin, and collagen 1 occurred|
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The highest mean number of osteoblast, osteocalcin, and collagen 1 expressions was found in the group whose cavities had been filled with a combination of mangosteen peel extract and DFDBBX. The expression of collagen 1 and osteocalcin can be found in [Figure 4] and [Figure 5].
|Figure 4: Collagen 1 expressions on day 30 were depicted in the following images. (a) Collagen 1 expression in the control group filled only with poly ethyl glycol on day 30. (b) Collagen 1 expression in the group filled with demineralized freeze-dried bovine bone xenograft + poly ethyl glycol on day 30. (c) Collagen 1 expression in the group filled with mangosteen peel extract + poly ethyl glycol on day 30. (d) Collagen 1 expression in the group filled with mangosteen peel extract + demineralized freeze-dried bovine bone xenograft + poly ethyl glycol on day 30|
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|Figure 5: Osteocalcin expressions on day 30 were depicted in the following images. (a) Osteocalcin expression in the control group filled only with poly ethyl glycol on day 30. (b) Osteocalcin expression in the group filled with demineralized freeze-dried bovine bone xenograft + poly ethyl glycol on day 30. (c) Osteocalcin expression in the group filled with mangosteen peel extract and poly ethyl glycol on day 30. (d) Osteocalcin expression in the group filled with mangosteen peel extract and demineralized freeze-dried bovine bone xenograft + poly ethyl glycol on day 30|
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The results of the ANOVA analysis of osteocalcin expression on days 7 and 30 indicated that there were significant differences in the expression of osteocalcin between the control group and the treatment groups, each of which had been induced with DFDBBX, mangosteen peel extract, and the combination of mangosteen peel extract and DFDBBX (P< 0.05). Moreover, the Tukey's HSD results confirmed significant differences in the expression of osteocalcin between the treatment groups each of which was induced with DFDBBX, mangosteen peel extract, and the combination of mangosteen peel extract and DFDBBX (P< 0.05).
| Discussion|| |
The wound healing process after tooth extraction involves certain stages, namely, early protein expression, cell apposition, remodeling, and saturation maturation revocation. At a microscope level, the bone healing process begins with coagulate formation followed by inflammatory cell infiltration initiating necrotic tissue removal. Subsequently, loose connective tissue will migrate to stabilize the extracellular matrix. Thereafter, the fibrous connective tissue will be replaced by woven bone which then develops into bone and marrow, a process referred to as ossification or osteogenesis.
In this research, postextraction socket preservation was performed by means of DFDBBX material combined with mangosteen peel extract used as filling in the extraction socket of those Cavia cobaya rats whose lower left incisors had been removed. Selection of the C. cobaya rats had been on the basis of their hormonal and immunological response (thymus and bone marrow, innate and complementary immune systems, respiratory physiology, response to corticosteroids, exogenous Vitamin C presence, and delayed-type hypersensitivity after exposure to infection which was similar to that in humans. It is also suggested a resemblance between the chromosome of C. cobayas and that possessed by humans.
Xenograft contains hydroxyapatite which bears some similarity to human bone in terms of the following characteristics; it covers the inner surface area, it is porous, its crystalline size, its calcium-phosphorus ratio leading to revascularization, and its being replaced by new bone. Similarly, research conducted by Jamjoom and Cohen indicated that xenograft can be used as an alternative to hard tissue transfer in patients susceptible to infectious diseases. Xenograft also possesses osteoconduction properties and can, therefore, serve as a scaffold for the surrounding cells to infiltrate and migrate into the graft. Thus, the insignificant difference in the degree of osteocalcin expression between the control group and the group with DFDBBX indicates that the administration of DFDBBX as a socket preservation graft has no effect on osteocalcin expression. DFDBBX merely functions as a scaffold.
These results were also supported by previous research undertaken by Mardiana showing that mangosteen extract is composed of xanton-a cyclic polyphenol ketone compound. There are about forty species of xanton in mangosteen peel. The most useful types of xanthones in mangosteen peel are α-mangostin and γ-mangostin. γ-mangostin exert a potentially inhibitory effect on the synthesis mechanism of prostaglandin E2 (PGE2). γ-mangostin in cyclooxygenase enzyme activity even can inhibit the conversion of arachidonic acid into PGE2. Nakatani et al. also showed that γ-mangostin is able to inhibit the activity of IκB kinase inhibitor which will activate nuclear factor-κB (NF-κB).
Therefore, as with previous research, the results of this investigation revealed that application of mangosteen peel extract to the extraction socket will suppress inflammatory response, thereby reducing the activity of inflammatory cells. For instance, the γ-mangostin in mangosteen peel extract can lead indirectly to a decrease in the activity of NF-κB which, in turn, will cause the number of osteoblast progenitor cells to increase., Consequently, the osteoblast differentiation process will be more rapid and will improve the osteogenesis process.
Werner and Grose asserted that, on the first day after injury, the wound will be filled with frozen blood and neutrophils will then invade the blood clots. On the following days 3–7, neutrophils will experience apoptosis. As a result, numerous macrophages will be present in the wound tissue, and endothelial cells will subsequently migrate, develop, and form new blood vessels. Thereafter, fibroblasts will migrate into the wound tissue, multiply, and form new tissues known as granulation tissues. One to two weeks after injury, the wound will be filled by granulation tissue. When fibroblasts evolve into myofibroblasts, this can lead to contractions and collagen deposition. The greatest product of osteoblast cells is collagen type-1 which will form collagen fibrils. Furthermore, osteoblasts also synthesize other proteins in the bone matrix, namely, osteocalcin and osteonectin, which constitute 40%–50% of the noncollagen proteins in bone. Therefore, it can be said that osteocalcin and collagen 1 are products of osteoblasts.
According to the findings of research performed by Scheller and Frerich, osteocalcin represents a bone marker with the result that increased bone formation will coincide with higher expressions of both osteocalcin and collagen 1.
| Conclusion|| |
Postextraction ridge preservation involving the application of fillings consisting of a combination of mangosteen peel extract and DFDBBX can potentially increase osteocalcin and collagen1 expressions, as producers of osteoblasts, thereby accelerating alveolar bone regeneration.
Financial support and sponsorship
Conflicts of interest
There are no conflicts of interest.
| References|| |
Sfeir C, Ho L, Doll BA, Azari K, Hollinger JO. Fracture repair. In: Lieberman JR, Friedlaender GE, editors. Bone Regeneration and Repair Biology and Clinical Application. New Jersey: Humana Press; 2005. p. 21-44.
Boix D, Weiss P, Gauthier O, Guicheux J, Bouler JM, Pilet P, et al.
Injectable bone substitute to preserve alveolar ridge resorption after tooth extraction: A study in dog. J Mater Sci Mater Med 2006;17:1145-52.
Pelegrine AA, da Costa CE, Correa ME, Marques JF Jr. Clinical and histomorphometric evaluation of extraction sockets treated with an autologous bone marrow graft. Clin Oral Implants Res 2010;21:535-42.
Steigmann M. A bovine-bone mineral block for the treatment of severe ridge deficiencies in the anterior region: A clinical case report. Int J Oral Maxillofac Implants 2008;23:123-8.
Barone A, Aldini NN, Fini M, Giardino R, Calvo Guirado JL, Covani U, et al.
Xenograft versus extraction alone for ridge preservation after tooth removal: A clinical and histomorphometric study. J Periodontol 2008;79:1370-7.
Mardas N, Chadha V, Donos N. Alveolar ridge preservation with guided bone regeneration and a synthetic bone substitute or a bovine-derived xenograft: A randomized, controlled clinical trial. Clin Oral Implants Res 2010;21:688-98.
Singh J, Takhar RK, Bhatia A, Goel A. Bone graft materials : Dental aspects. J Nov Res Healthc Nurs 2016;3:99-103.
Ghamdi H, Mokeem S, Anil S. Current concepts in alveolar bone augmentation : A critical appraisal. Saudi Dent J 2007;19:74-90.
Kusdhani LS. Penentuan Indeks Densitas Tulang Mandibula Perempuan Pasca Maenopause dengan Memperhatikan Beberapa Faktor Risiko Terjadinya Osteoporosis. Post Graduate Disertation. Universitas Indonesia; 2003.
Kresnoadi U, Hadisoesanto Y, Prabowo H. Effect of mangosteen peel extract combined with demineralized freezed-dried bovine bone xenograft on osteoblast and osteoclast formation in post tooth extraction socket. Dent J (Majalah Kedokt Gigi) 2016;49:43. Available from: http://www-journal.unair.ac.id/index.php/mkg/article/view/2768
. [Last accessed on 2017 Dec 6].
Guskuma MH, Hochuli-Vieira E, Pereira FP, Rangel-Garcia I Jr., Okamoto R, Okamoto T, et al.
Evaluation of the presence of VEGF, BMP2 and CBFA1 proteins in autogenous bone graft: Histometric and immunohistochemical analysis. J Craniomaxillofac Surg 2014;42:333-9.
Cardaropoli G, Araújo M, Lindhe J. Dynamics of bone tissue formation in tooth extraction sites. An experimental study in dogs. J Clin Periodontol 2003;30:809-18.
Kini U, Nandesh BN. Physiology of bone formation, remodelling, and metabolism. In: Fogelman I, Gnanasegaran G, Van der Wall H, editors. Radionuclide and Hybride Bone Imaging. Berlin: Springer; 2012. p. 29-57.
Padilla-Carlin DJ, McMurray DN, Hickey AJ. The guinea pig as a model of infectious diseases. Comp Med 2008;58:324-40.
Romanenko SA, Perelman PL, Trifonov VA, Serdyukova NA, Li T, Fu B, et al.
A first generation comparative chromosome map between guinea pig (Cavia porcellus
) and humans. PLoS One 2015;10:e0127937.
Jamjoom A, Cohen RE. Grafts for ridge preservation. J Funct Biomater 2015;6:833-48.
Mardiana L. Ramuan dan Khasiat Kulit Manggis. 5th
ed. Jakarta-Indonesia: Penebar Swadaya; 2013.
Nakatani K, Nakahata N, Arakawa T, Yasuda H, Ohizumi Y. Inhibition of cyclooxygenase and prostaglandin E2 synthesis by gamma-mangostin, a xanthone derivative in mangosteen, in C6 rat glioma cells. Biochem Pharmacol 2002;63:73-9.
Nakatani K, Yamakuni T, Kondo N, Arakawa T, Oosawa K, Shimura S, et al.
Gamma-mangostin inhibits inhibitor-kappaB kinase activity and decreases lipopolysaccharide-induced cyclooxygenase-2 gene expression in C6 rat glioma cells. Mol Pharmacol 2004;66:667-74.
Werner S, Grose R. Regulation of wound healing by growth factors and cytokines. Physiol Rev 2003;83:835-70.
Scheller K, Frerich B. Ca(2+)-deposition in cell matrix correlates significantly with osteocalcin-expression in osteogenic differentiated ATSC: Even in a coculture system with HUVEC. J Oral Maxillofac Pathol 2013;17:340-5.
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